FORMATION OF BEGINNING AND BORDER CONDITIONS OF THERMAL LOCALIZATION OF THE EMERGENCY SITUATION ASSOCIATED WITH CHEMICAL-DAMAGES

Array

Authors

  • V. Strelets National University of Civil Protection of Ukraine
  • R. Shevchenko National University of Civil Protection of Ukraine

Keywords:

thermal destruction, emergency, chemical hazardous substances, protective device

Abstract

localization with the help of a two-level dome-shaped protective device in case of forced thermal destruction of the device of impulse damage of chemical-dangerous substances is solved in the work.

The solution to this problem was based on the hypothesis of the possibility of rapid application of a two-level protective device for the thermal localization of a cell of emergencies related to the impulse lesion of chemically dangerous substances. According to the hypothesis, approaches to the formation of a mathematical apparatus, which consists of a mathematical model of prevention of an emergency of a similar nature, the control algorithm and methods for their practical application, are determined. In order to implement this approach, the paper analyzes the current state of formation of the mathematical apparatus, identifies the existing shortcomings of the existing models. In order to eliminate the latter, the impact of characteristic technical and operational conditions on the effectiveness of localization of emergency situation related to the threat of impulse emission of chemical hazardous substances was analyzed. In the course of the research it was proved that the formation of recommendations for reducing the time of localization of the consequences of emergencies related to the threat of impulse release of chemical-dangerous substances by means of a two-level protective device requires obtaining a multifactor mathematical model of emergency prevention taking into account its initial and boundary conditions. The final step was to determine the initial and boundary conditions of a multifactor mathematical model that describes the behavior of the emergency prevention process.

Based on this, further research should be aimed at developing a mathematical model of emergency prevention related to the threat of impulse release of chemical-dangerous substances and appropriate methodology based on it, which will reduce the time of localization of the consequences of an emergency without changing the level of safety of civilians and personal the composition of the emergency rescue unit with the help of a mobile protective device.

Author Biographies

V. Strelets, National University of Civil Protection of Ukraine

Research Fellow, Department of Civil Protection and Technogenic and Environmental Safety

R. Shevchenko, National University of Civil Protection of Ukraine

Doctor of Technical Sciences, Senior Researcher, Head of Scientific Department of Civil Protection and Technogenic-Environmental Safety

References

Xiao, T., Horberry, T., Cliff, D. (2015) Analysing mine emergency management needs: a cognitive work an alysis approach. International Journal of Emergency Management (IJEM), 11, 191–208.

Toan Dang Qua. (2015) Train-the-Trainer Trauma Care Programin Vietnam. Journal of Conventional Weapons Destruction, 19, 12-24.

Smith, A. (2017) An APT Demining Machine. Journal of Conventional Weapons Destruction, 21, 187-192.

Hadjadj, A., Sado, O. (2013) Shock and blast wave mitigation. Shock Waves, 23, 1–4.

Tyas, A., Rigby, S. E., Clarke, S. D. (2014) Preface on special edition on blast load characterization. Int J ProtStruct, 7, 302–304.

Blakeman, S. T., Gibbs, A. R., Jeyasingham, J.(2008) A study of mine resistant ambush protected (MRAP) vehicle as a model for rapid defence acquisitions. MBA Professional Report Monterey Naval School, 9, 312–324.

Sherkar, P., Whittaker, A. S., Aref, A. J. (2010) Modeling the effects of detonations of high explosives to inform blast-resistant design. Technical Report MCEER-10–0009, 1 9, 112–122.

Armor Thane Reduces the Impact from Bombs and Bullets.(n.d.) Retrieved from https://www.armorthane.com/protective-coating-applications/blast-mitigation-protection.htm

Togashi, E., Baum, J. D., Mestreau, E., Löhner, R., Sunshine, D. (2010) Numerical simulation of long duration blast wave evolution in confined facilities. Shock Waves, 20, 409–424.

Snyman, I. M., Mostert, F. J., Olivier, M. (2013) Measuring pressure in a confined space. 27th international symposium on ballistics, 22–26.

Changgen Feng, Baoming Li. (2018) Defence Technology. 1st International Conference on Defence Technology, 14, 357–642.

Toan, Dang Quang (2015) Train-the-Trainer Trauma Care Program in Vietnam. Journal of Conventional Weapons Destruction, 19, 57–64.

Published

2020-04-03

How to Cite

Strelets, V., & Shevchenko, R. (2020). FORMATION OF BEGINNING AND BORDER CONDITIONS OF THERMAL LOCALIZATION OF THE EMERGENCY SITUATION ASSOCIATED WITH CHEMICAL-DAMAGES: Array. Municipal Economy of Cities, 1(154), 293–297. Retrieved from https://khg.kname.edu.ua/index.php/khg/article/view/5567

Most read articles by the same author(s)

1 2 3 > >>